Low-carbon management system and method

Abstract

The invention provides a low-carbon management system and method, belongs to the technical field of low-carbon platforms, and aims to solve the problem that personal low-carbon behaviors do not generate honor value and physical value for individuals in related technologies. The system comprises a plurality of user terminals, a low-carbon task server and a carbon account server, each user terminal in the plurality of user terminals is used for collecting low-carbon behavior data of a user of the user terminal, sending the low-carbon behavior data to the carbon account server and displaying a carbon account page of the user; the low-carbon task server is used for issuing low-carbon tasks to the plurality of user terminals respectively and determining the low-carbon tasks completed by users of the plurality of user terminals respectively; and the carbon account server is used for determining the carbon emission reduction and the carbon point value of each user, determining the carbon account resource value of the user according to the carbon emission reduction and the carbon point value of the user, and sending the carbon account resource value to the user terminal.

Description

Technical Field

[0001] The present disclosure relates to the technical field of low-carbon platforms, and in particular to a low-carbon management system and method. Background Art

[0002] Enterprises responding to the public's demand for low-carbon consumption will accelerate the low-carbon transformation of the entire value chain and provide consumers with more sustainable products and services in the future, thereby achieving joint efforts from the consumer and enterprise ends, contributing to the emission reduction goals of the whole society, and forming a closed loop of sustainable development of green consumption. In related technologies, personal green and low-carbon behavior data are scattered in multiple office management and life office service systems, and the behavior data exists independently in its own database, which cannot achieve data interoperability and sharing, and the carbon emission reduction settled based on personal low-carbon behavior data does not bring honor value and physical value to individuals. Summary of the invention

[0003] In order to overcome the problems existing in the related art, the present disclosure provides a low-carbon management system and method. The technical solution of the present disclosure is as follows:

[0004] According to a first aspect of an embodiment of the present disclosure, there is provided a low-carbon management system, comprising: a plurality of user terminals, a low-carbon task server and a carbon account server;

[0005] Each of the plurality of user terminals is used to: collect low-carbon behavior data of a user of the user terminal and send the data to a carbon account server, and display a carbon account page of the user, wherein the carbon account page of the user at least includes a carbon account resource value of the user;

[0006] The low-carbon task server is used to: issue low-carbon tasks to the multiple user terminals respectively, and determine the low-carbon tasks to be completed by the users of the multiple user terminals respectively;

[0007] The carbon account server is used to: determine the emission reduction standard and integral standard suitable for each user's low-carbon behavior based on each user's low-carbon behavior data and completed low-carbon tasks, determine each user's carbon emission reduction and carbon integral value based on the determined emission reduction standard and integral standard and each user's low-carbon behavior data and completed low-carbon tasks, and determine the user's carbon account resource value based on the user's carbon emission reduction and carbon integral value and send it to the user terminal.

[0008] Optionally, it also includes: an update module and an information management server;

[0009] The information management server is used to: store the carbon account resource value of each user determined by the carbon account server;

[0010] The carbon account server is further used to: after determining the carbon account resource value of the user, store the carbon account resource value of the user in the information management server;

[0011] The updating module is used to: monitor the carbon account resource value of each user in the information management server, and send a data updating instruction to the user terminal corresponding to the user when the carbon account resource value of each user changes;

[0012] Each of the plurality of user terminals is further configured to: in response to the data update instruction, obtain the carbon account resource value corresponding to the user from the information management server; and update the carbon account page according to the carbon account resource value.

[0013] Optionally, it also includes: an update module and an information management server;

[0014] The information management server is used to: store the carbon account resource value of each user determined by the carbon account server;

[0015] The carbon account server is further used to: after determining the carbon account resource value of the user, store the carbon account resource value of the user in the information management server;

[0016] The updating module is used to: monitor the carbon account resource value of each user in the information management server, and send a data updating instruction to the user terminal corresponding to the user when the carbon account resource value of each user changes;

[0017] Each of the plurality of user terminals is further configured to: in response to the data update instruction, obtain the carbon account resource value corresponding to the user from the information management server; and update the carbon account page according to the carbon account resource value.

[0018] Optionally, it also includes: a matching server;

[0019] The matching server is used to: match the corresponding emission reduction standard and integral standard for the low-carbon behavior data of the user through a low-carbon model;

[0020] The carbon account server is further used to: after acquiring the low-carbon behavior data of each user, access the matching server; and determine the emission reduction standard and the integral standard adapted to the low-carbon behavior data from the matching server.

[0021] Optionally, it also includes: a behavior recording server;

[0022] The behavior recording server is used to: store the low-carbon behavior data of each user;

[0023] Each of the plurality of user terminals is further configured to: after collecting the low-carbon behavior data of the user of the user terminal, store the low-carbon behavior data of each user into the behavior recording server;

[0024] The carbon account server is further used to obtain the low-carbon behavior data of each user from the behavior record server.

[0025] Optionally, it also includes: an authority server;

[0026] Each of the plurality of user terminals is further configured to: send a permission request to the permission server when the user logs into the carbon account page; and receive operation information of the user on the permission request interface, and send the operation information to the permission server;

[0027] The permission server is used to: send a permission request interface to the user terminal in response to the permission request, and determine whether the user terminal can obtain low-carbon behavior data according to the user's operation information.

[0028] Optionally, it also includes: a carbon credit control server and an information management server;

[0029] The carbon credit control server is used to: control the upper limit of carbon credits for each user;

[0030] The information management server is used to: store the carbon account resource value of each user determined by the carbon account server;

[0031] The low-carbon task server is also used to: obtain the user's carbon credit upper limit from the carbon credit control server when determining the user's carbon credit value based on the user's low-carbon behavior data and completed low-carbon tasks, and obtain the user's carbon account resource value within a preset period from the information management server; when the carbon credit value in the carbon account resource value reaches the carbon credit upper limit, the low-carbon task server does not perform carbon credit value calculation.

[0032] Optionally, it also includes: an administrator terminal;

[0033] The administrator terminal is used to: initiate the low-carbon task to the low-carbon task server, and set the carbon credit value calculation standard of the low-carbon task;

[0034] The low-carbon task server is further used to: receive the low-carbon task and the carbon credit value calculation standard of the low-carbon task sent by the administrator terminal;

[0035] The carbon account server is also used to: receive the user's completion data on the low-carbon task, obtain the carbon credit value calculation standard of the low-carbon task from the low-carbon task server, and determine the carbon credit value corresponding to the low-carbon task.

[0036] Optionally, it also includes: a ranking server and an information management server;

[0037] The information management server is used to: store the carbon account resource value of each user determined by the carbon account server;

[0038] The ranking server is used to: generate one or more ranking lists, wherein the ranking lists rank the carbon account resource values ​​of individuals or groups according to multiple different statistical periods; the ranking lists correspond to one or more ranking strategies; the ranking strategies include ranking according to carbon emission reduction and ranking according to carbon integral value, and obtaining ranking information; and sending the ranking information to the user terminal;

[0039] Each of the multiple user terminals is further configured to: receive the ranking information, and display the ranking information on the carbon account page of the user.

[0040] Optionally, it also includes: a carbon credit removal server and an information management server;

[0041] The information management server is used to: store the carbon account resource value of each user determined by the carbon account server;

[0042] The carbon credit clearing server is used to: generate a clearing strategy, determine a carbon credit clearing interface according to the clearing strategy, and send the carbon credit clearing interface to the user terminal;

[0043] Each of the multiple user terminals is further used for: acquiring the carbon account resource value of the user from the information management server, and clearing the carbon account resource value through the designed clearing strategy.

[0044] According to a second aspect of an embodiment of the present disclosure, there is provided a low-carbon management method, comprising:

[0045] issuing low-carbon tasks to a plurality of user terminals respectively, and determining the low-carbon tasks to be completed by the users of the plurality of user terminals respectively;

[0046] Collecting low-carbon behavior data of the user;

[0047] According to each user's low-carbon behavior data and completed low-carbon tasks, determine the emission reduction standard and point standard suitable for each user's low-carbon behavior;

[0048] Determine the carbon emission reduction and carbon credit value of each user based on the determined emission reduction standards and credit standards and each user's low-carbon behavior data and completed low-carbon tasks;

[0049] Determining the carbon account resource value of the user according to the carbon emission reduction and carbon credit value of the user;

[0050] The carbon account resource value is displayed on the user's carbon account page.

[0051] The present disclosure can collect users' green and low-carbon behavior data through user terminals, and can centrally manage and store users' low-carbon behavior data. Each user terminal collects and sends users' low-carbon behavior data to the carbon account server, thereby realizing data integration and sharing. The carbon account server determines the emission reduction standard and integral standard suitable for each user's low-carbon behavior based on the user's low-carbon behavior data and completed low-carbon tasks, which can more accurately reflect each user's actual emission reduction contribution and can also motivate users to participate more actively in low-carbon actions. Through the low-carbon management system, each user's carbon emission reduction and carbon integral value are directly mapped to their carbon account resource value, giving the user's low-carbon behavior actual economic and social value. BRIEF DESCRIPTION OF THE DRAWINGS

[0052] In order to more clearly illustrate the technical solutions of the embodiments of the present disclosure, the drawings required for use in the description of the embodiments of the present disclosure will be briefly introduced below. Obviously, the drawings in the following description are only some embodiments of the present disclosure. For ordinary technicians in this field, other drawings can be obtained based on these drawings without creative work.

[0053] Figure 1 is a schematic diagram of a low-carbon management system shown in an embodiment of the present disclosure;

[0054] Figure 2 is a functional flow chart shown in an embodiment of the present disclosure;

[0055] Figure 3 is a schematic diagram of calculating the emission reduction amount of walking points shown in an embodiment of the present disclosure;

[0056] Figure 4 It is a schematic diagram of calculating the emission reduction amount of online conference points shown in an embodiment of the present disclosure;

[0057] Figure 5 It is a schematic diagram of calculating emission reduction amount of knowledge question and answer points shown in an embodiment of the present disclosure;

[0058] Figure 6 is a schematic diagram of matching an emission reduction standard and a credit standard shown in an embodiment of the present disclosure;

[0059] Figure 7 It is a flow chart of a low-carbon management method shown in an embodiment of the present disclosure. DETAILED DESCRIPTION

[0060] The following will be combined with the drawings in the embodiments of the present disclosure to clearly and completely describe the technical solutions in the embodiments of the present disclosure. Obviously, the described embodiments are part of the embodiments of the present disclosure, rather than all of the embodiments. Based on the embodiments in the present disclosure, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present disclosure.

[0061] The terms "first", "second", etc. in the specification and claims of the present disclosure are used to distinguish similar objects, and are not used to describe a specific order or sequence. It should be understood that the data used in this way can be interchangeable when appropriate, so that the embodiments of the present disclosure can be implemented in an order other than those illustrated or described herein, and the objects distinguished by "first", "second", etc. are generally of the same type, and the number of objects is not limited. For example, the first object can be one or more. In addition, "and / or" in the specification and claims represents at least one of the connected objects, and the character " / " generally indicates that the objects associated with each other are in an "or" relationship.

[0062] In the context of the increasing urgency of addressing global climate change, significant greenhouse gas emissions reductions can be achieved by 2050, with estimates ranging from 40% to 70%, through infrastructure and technology implementation, as well as changes in our lifestyles and behaviors. This requires not only the active participation of businesses, but also the adoption of more sustainable consumption behaviors by consumers in their personal lives.

[0063] Faced with the growing demand for low-carbon consumption from consumers, enterprises are accelerating the low-carbon transformation of their entire value chain. By providing more sustainable products and services, enterprises and consumers can work together to achieve joint emission reduction from the consumer end to the enterprise end, contribute to the emission reduction goals of the whole society, and form a closed loop of sustainable development of green consumption.

[0064] At present, personal green and low-carbon behavior data are scattered in multiple office management and life office service systems, and there is a data island problem. It is impossible to achieve data intercommunication and sharing, so it is impossible to accurately obtain personal low-carbon behavior data, which also restricts the accurate calculation of personal emission reduction. In addition, the emission reduction settled by personal low-carbon behavior currently lacks honor and recognition of physical value, which also reduces the enthusiasm of individuals to participate in low-carbon actions. Therefore, it is crucial to establish a system that can accurately record personal low-carbon behavior and quantify emission reduction results and give actual value.

[0065] In order to solve the above technical problems, the present disclosure proposes a low-carbon management system, which can effectively solve the problems of data islands and lack of value recognition of emission reductions.

[0066] Figure 1 Schematic diagram of a low-carbon management system shown in an embodiment of the present disclosure. Figure 1 , the system comprises: a plurality of user terminals, a low-carbon task server and a carbon account server;

[0067] Each of the multiple user terminals is used to: collect low-carbon behavior data of a user of the user terminal and send it to a carbon account server, and display a carbon account page of the user, wherein the carbon account page of the user at least includes a carbon account resource value of the user.

[0068] Various low-carbon behavior data corresponding to users are collected from multiple office management and life office service systems through user terminals. The low-carbon behavior data include descriptive data and activity level data; the descriptive data include: the identity identification, system identification, behavior identification, time, and location of the user's implementation of green and low-carbon behavior; the activity level data include: the number of times the green behavior occurs, type, mileage, weight, material, energy consumption, volume, duration, equipment unique identification code, fuel consumption, electricity, power, and quantity.

[0069] The user terminal encrypts the low-carbon behavior data, sets security authentication and access control measures, and securely transmits the low-carbon behavior data from the user terminal to the carbon account server.

[0070] When the user terminal displays the user's carbon account page, the carbon account page may include charts, statistical data, and personalized designs, etc., which can help the user to more intuitively understand his low-carbon behavior and room for improvement.

[0071] The low-carbon task server is used to: issue low-carbon tasks to the multiple user terminals respectively, and determine the low-carbon tasks to be completed by the users of the multiple user terminals respectively.

[0072] Different types of low-carbon tasks are identified and can be categorized and prioritized based on the impact or urgency of the tasks. For example, some tasks may contribute more to carbon reduction or be associated with specific environmental initiatives. Tasks with higher priority can be pushed to user terminals.

[0073] Specifically, the low-carbon task can be assigned to the user terminal by notifying or prompting on the carbon account page or setting the task acceptance process on the carbon account page. The standard and conditions for completing each low-carbon task can be determined. It can include specific behaviors, time limits or emission reduction effects achieved. And the carbon credit value that can be obtained after completing the low-carbon task is displayed on the user's carbon account page.

[0074] The user's low-carbon behavior data collected in real time by the user terminal is used to track and record the user's progress and completion of low-carbon tasks.

[0075] The carbon account server is used to: determine the emission reduction standard and integral standard suitable for each user's low-carbon behavior based on each user's low-carbon behavior data and completed low-carbon tasks, determine each user's carbon emission reduction and carbon integral value based on the determined emission reduction standard and integral standard and each user's low-carbon behavior data and completed low-carbon tasks, and determine the user's carbon account resource value based on the user's carbon emission reduction and carbon integral value and send it to the user terminal.

[0076] For each low-carbon behavior data, the emission reduction standard and integral standard corresponding to the low-carbon behavior data are matched. According to the emission reduction standard and integral standard, the user's low-carbon behavior data and completed low-carbon tasks are calculated using a pre-set formula or algorithm to determine the user's carbon emission reduction and carbon integral value. The calculated carbon emission reduction and integral value can be verified and reviewed to ensure the accuracy and credibility of the data.

[0077] The carbon account resource value of each user is determined based on the calculated carbon emission reduction and carbon credit value. The carbon account resource value can reflect the user's carbon emission reduction contribution in the platform or system.

[0078] The determined carbon account resource value is sent to the user terminal to inform the user of its latest carbon emission reduction effect and point accumulation status.

[0079] By adopting the low-carbon management system disclosed in the present invention, the low-carbon behavior data of users is collected through user terminals, which can avoid data isolation and uniformly manage the low-carbon behavior data of various office life service systems. Each user can access a personalized carbon account page through his terminal, which displays the user's carbon account resource value, providing the user with a real-time sense of achievement and data analysis of carbon emission reduction. The carbon account server formulates emission reduction standards and points standards suitable for each user based on the user's low-carbon behavior data and task completion status. These standards can be adjusted to reflect the actual contribution of different behaviors to carbon emission reduction. Based on the determined emission reduction and points standards, the carbon account server calculates the carbon emission reduction and carbon points value of each user, which directly reflects the actual impact of the user on the environment through his behavior, and serves as the basis for rewards and recognition.

[0080] Figure 2 is a functional flow chart of an embodiment of the present disclosure. Figure 2As shown, the system may include multiple users such as user 1, user 2, user 3 and user 4. Each user will generate low-carbon behavior data and complete low-carbon tasks. When users perform low-carbon tasks, some low-carbon behavior data will also be generated; the low-carbon behavior data has multiple categories, including daily check-ins, walking, online meetings, knowledge questions and answers, carbon reduction suggestions and activity participation, etc. Different users can generate the same category of low-carbon behavior data, and the same user can generate multiple categories of low-carbon behavior data. Some low-carbon behavior data can generate carbon emission reductions, but each low-carbon behavior data can generate carbon points, that is, carbon point values; according to the carbon emission reductions generated by the users, personal rankings, team rankings, honorary titles, sharing and publicity, etc. can be achieved; according to the carbon point values ​​generated by the users, personal rankings, team rankings, point redemption and sharing and publicity, etc. can be achieved.

[0081] Among them, in an optional embodiment, the low-carbon management system also includes: an update module and an information management server; the information management server is used to: store the carbon account resource value of each user determined by the carbon account server; the carbon account server is also used to: after determining the carbon account resource value of the user, store the carbon account resource value of the user in the information management server; the update module is used to: monitor the carbon account resource value of each user in the information management server, and when the carbon account resource value of each user changes, send a data update instruction to the user terminal corresponding to the user; each of the multiple user terminals is also used to: in response to the data update instruction, obtain the carbon account resource value corresponding to the user from the information management server; according to the carbon account resource value, update the carbon account page.

[0082] After the carbon account server determines the carbon account resource value of each user, it stores these values ​​in the information management server. The information management server is responsible for securely storing and managing this data to ensure the integrity and accessibility of the data.

[0083] The update module regularly monitors the carbon account resource values ​​of each user stored in the information management server. If the carbon account resource value of a user changes, for example, because the user completes a new low-carbon task or takes additional low-carbon actions, the update module will trigger a data update instruction.

[0084] The user terminal receives data update instructions from the update module. These instructions notify the user terminal that the user's carbon account resource value has changed and the carbon account page displayed on the user interface needs to be updated. The user terminal responds to the data update instruction and obtains the latest carbon account resource value corresponding to the user from the information management server. Based on the latest carbon account resource value obtained, the user terminal updates and displays the user's carbon account page, and displays the carbon account resource value in a visual manner on the carbon account page.

[0085] With the low-carbon management system disclosed in the present invention, the information management server serves as a platform for centralized storage of carbon account resource values, which can safely and reliably store the carbon account data of each user, ensuring that the system can track and manage the carbon emission reduction progress of users in the long term, while providing a reliable basis for subsequent data analysis and reporting. After calculating and confirming the carbon account resource value of each user, the carbon account server is responsible for updating these values ​​to the information management server, ensuring the real-time nature of the information, so that users can keep abreast of their latest carbon emission reduction achievements. The update module regularly monitors the carbon account resource values ​​of each user stored in the information management server. When the carbon account resource value of any user changes, the update module will respond immediately and send a data update instruction to the corresponding user terminal. It ensures that users can understand their contributions to carbon emission reduction in real time and accurately, thereby enhancing user participation and motivation. By updating the carbon account page in a timely manner, users can clearly see the direct impact of their low-carbon behavior, motivating users to continue to take environmental protection measures.

[0086] Among them, in an optional embodiment, the low-carbon management system also includes: a matching server; the matching server is used to: match the corresponding emission reduction standards and point standards for the low-carbon behavior data of the user through a low-carbon model; the carbon account server is also used to: after obtaining the low-carbon behavior data of each user, access the matching server; determine the emission reduction standards and point standards suitable for the low-carbon behavior data from the matching server.

[0087] After obtaining the low-carbon behavior data of each user, the carbon account server will initiate a request to the matching server. The matching server is specially used to match the user's specific behavior data with the corresponding emission reduction standards and points standards according to the pre-set low-carbon model.

[0088] After receiving the low-carbon behavior data sent by the carbon account server, the matching server uses the built-in low-carbon model to analyze the user's low-carbon behavior data; based on factors such as the type, frequency, and influence of this data, it determines the appropriate emission reduction standards and points standards.

[0089] Different emission reduction standards can be reflected through different carbon emission reduction calculation formulas.

[0090] The formula for calculating carbon emission reduction is:

[0091] ER=(BE-PE)*K

[0092] Among them, ER represents the emission reduction calculated by the emission reduction scenario during the reporting period, in kilograms of carbon dioxide equivalent (kgCO2e); BE represents the baseline emissions of the emission reduction scenario during the reporting period, in kilograms of carbon dioxide equivalent (kgCO2e); PE represents the emissions of the emission reduction scenario during the reporting period, in kilograms of carbon dioxide equivalent (kgCO2e); K represents the calculation coefficient, which is dimensionless.

[0093] When PE accounts for less than 1% of BE, PE can be ignored, so ER=PE.

[0094] Different credit standards can be reflected through different carbon credit value calculation formulas.

[0095] The carbon credit value calculation formula is:

[0096] S=C*P*K

[0097] Among them, S represents the carbon credits calculated for the emission reduction scenario during the reporting period, which is dimensionless; C represents the activity data of the emission reduction scenario during the reporting period, which is dimensionless; P represents the integral value corresponding to each unit of emission reduction scenario activity data during the reporting period; K represents the calculation coefficient, which is dimensionless.

[0098] The matching server returns the determined emission reduction standard and integral standard to the carbon account server, that is, returns the carbon emission reduction calculation formula and carbon integral value calculation formula to the carbon account server.

[0099] According to the emission reduction standards and points standards returned by the matching server, the carbon account server will update the user's carbon account resource value.

[0100] Figure 6 Schematic diagram of matching emission reduction standards and integral standards shown in the embodiment of the present disclosure. Figure 6 As shown, user 1 or user 2 can both walk and hold online meetings; walking and online meetings correspond to their respective emission reduction standards and integral standards; each user calculates their respective carbon emission reductions and carbon integral values ​​through walking and online meetings corresponding to their respective emission reduction standards and integral standards.

[0101] By using the low-carbon management system disclosed in the present invention, through matching servers and low-carbon models, the system can accurately calculate the actual emission reduction effects and deserved points of each user's various low-carbon behaviors, thereby motivating users to take more environmentally friendly actions. Users can view the impact of their low-carbon behaviors in real time. This timely feedback can enhance user participation and enthusiasm and promote continuous environmentally friendly behaviors. By separating the functions of the matching server and the carbon account server, the system can flexibly respond to different types of low-carbon behaviors and update emission reduction standards to meet the needs of different user groups.

[0102] Among them, in an optional embodiment, the low-carbon management system also includes: a behavior recording server; the behavior recording server is used to: store the low-carbon behavior data of each of the users; each of the multiple user terminals is also used to: after collecting the low-carbon behavior data of the user of the user terminal, store the low-carbon behavior data of each of the users to the behavior recording server; the carbon account server is also used to: obtain the low-carbon behavior data of each of the users from the behavior recording server.

[0103] The user terminal collects the user's low-carbon behavior data and stores it in the behavior record server. The behavior record server is a platform dedicated to storing the user's low-carbon behavior data. Each user's data is securely stored on the server to ensure the integrity and reliability of the data.

[0104] The carbon account server can regularly obtain the low-carbon behavior data of each user from the behavior record server, ensuring that the carbon account server can always access the latest user behavior data in order to calculate and update the user's carbon account information.

[0105] Among them, during the data transmission process, technical measures such as encrypted transmission and permission control can be taken to prevent unauthorized access or data leakage.

[0106] With the low-carbon management system disclosed in the present invention, the existence of the behavior record server enables the low-carbon behavior data to be centrally stored and managed, providing the system with efficient data access and processing capabilities. The carbon account server obtains data from the behavior record server on a regular basis to achieve real-time updates of the user's carbon account page, ensuring that the user can view the latest environmental protection action results in a timely manner. By quickly and accurately reflecting the user's low-carbon behavior, the user's satisfaction and participation can be improved, and the user can be encouraged to continue to take environmental protection measures.

[0107] Among them, in an optional embodiment, the low-carbon management system also includes: an authority server; each of the multiple user terminals is also used to: send an authority request to the authority server when the user logs in to the carbon account page; and; receive the user's operation information on the authority request interface, and send the operation information to the authority server; the authority server is used to: respond to the authority request, send the authority request interface to the user terminal, and, based on the user's operation information, determine whether the user terminal can obtain low-carbon behavior data.

[0108] When a user logs in to the carbon account page on his terminal, the terminal will send a permission request to the permission server. The permission request is used to obtain specific low-carbon behavior data or perform specific operations.

[0109] After receiving the permission request from the user, the permission server can return the permission request interface to the user terminal, and the permission request interface is displayed on the terminal interface. The user can click on the permission request interface, and the permission request interface includes options that the user can operate or detailed information on the permission request. According to the user's click operation, the user's specific operation information for authorization is determined; the operation information is returned to the permission server, and the permission server responds to the operation information and determines whether to authorize the carbon account page on the user terminal according to the operation information, so that the user's various low-carbon behavior data can be obtained through the user terminal.

[0110] In addition, the permission server can perform user identity authentication to ensure that only legitimate users can obtain sensitive low-carbon behavior data.

[0111] By adopting the low-carbon management system disclosed in the present invention, the system can realize refined permission management of low-carbon behavior data through the permission server, ensuring that only authorized users can access specific data or perform specific operations. The existence of the permission server helps the system ensure the security of user data during transmission and access, and prevent unauthorized access and data leakage. The permission server is flexibly designed to support permission management requirements of different scales and complexities, and adapt to the expansion of the system and the introduction of new functions.

[0112] Among them, in an optional embodiment, the low-carbon management system also includes: a carbon credit control server and an information management server; the carbon credit control server is used to: control the carbon credit upper limit of each user; the information management server is used to: store the carbon account resource value of each user determined by the carbon account server; the low-carbon task server is also used to: when the user's carbon credit value is determined based on the user's low-carbon behavior data and completed low-carbon tasks, obtain the user's carbon credit upper limit from the carbon credit control server, and obtain the user's carbon account resource value within a preset period from the information management server; when the carbon credit value in the carbon account resource value reaches the carbon credit upper limit, the low-carbon task server does not perform carbon credit value calculation.

[0113] The carbon credit limit for each user can be set separately; the carbon credit limit can be the highest carbon credit value that can be obtained within a preset time period; or it can be the highest carbon credit value that the user can obtain at the current stage. The current stage of the user can refer to the level label corresponding to the user. At some point, conditions can be set when the user's level is upgraded. Before the conditions are met, the user can only be in this level label. Each level label can determine the maximum carbon credit value that the corresponding user can obtain. The carbon credit limits corresponding to different level labels can be different or the same. The corresponding ID of the user and the carbon credit limit are stored in the form of a key-value pair, and the key-value pair is stored in the carbon credit control server. The carbon credit limit of each user can be controlled by the carbon credit control server.

[0114] The information management server is used to store the carbon account resource value of each user, and the carbon account resource value can express the carbon account resource value obtained by the user at different times and stages. When the system needs to obtain the carbon account resource value of the user, it can be obtained by accessing the information management server.

[0115] The low-carbon task server is used to determine the carbon account resource value of the user, and the carbon account resource value includes the carbon credit value and the carbon emission reduction. Before calculating the carbon account resource value of the user, or during the calculation process, the low-carbon task server obtains the carbon credit upper limit corresponding to the user from the carbon credit control server in real time, and obtains the carbon account resource value corresponding to the user from the information management server, and compares the carbon credit upper limit obtained from the carbon credit control server with the carbon account resource value obtained from the information management server. In the case where the carbon credit value in the carbon account resource value reaches the carbon credit upper limit, the low-carbon task server does not perform the accounting of the carbon account resource value, or interrupts the accounting of the carbon account resource value.

[0116] By adopting the low-carbon management system disclosed in the present invention, the upper limit set by the carbon credit control server can prevent some users from affecting the fairness and resource allocation of the system due to excessive acquisition of carbon credits. By limiting the upper limit of carbon credits, users are prevented from obtaining too many points through a single behavior or cheating, ensuring the fairness of the points system. Through the real-time data storage and update function of the information management server, it is ensured that the low-carbon task server can obtain accurate user carbon account resource values ​​and credit upper limits, so as to perform effective carbon credit accounting. When the user's carbon credit value reaches the upper limit, the system will automatically stop further accounting to avoid resource waste and unnecessary computing burden.

[0117] Among them, in an optional embodiment, the low-carbon management system also includes: an administrator terminal; the administrator terminal is used to: initiate the low-carbon task to the low-carbon task server, and set the carbon credit value calculation standard for the low-carbon task; the low-carbon task server is also used to: receive the low-carbon task and the carbon credit value calculation standard for the low-carbon task sent by the administrator terminal; the carbon account server is also used to: receive the user's completion data on the low-carbon task, obtain the carbon credit value calculation standard for the low-carbon task from the low-carbon task server, and determine the carbon credit value corresponding to the low-carbon task.

[0118] The low-carbon management system also includes an administrator terminal; the administrator can use the administrator terminal to initiate tasks or notifications within the system. Specifically, the administrator can create and manage low-carbon tasks on the administrator terminal, and set the corresponding carbon credit value calculation standards. The task information may include task descriptions, execution requirements, completion standards, and how many carbon credits can be obtained by completing the low-carbon task. The carbon credit value obtained by completing the task can be a fixed value or a carbon credit value calculation formula. After the administrator completes the low-carbon task, the low-carbon task can be published to the low-carbon task server through the administrator terminal.

[0119] The low-carbon task server can receive the low-carbon task sent by the administrator terminal and publish the low-carbon task to the user terminal. The low-carbon task server stores the relevant information of the low-carbon task.

[0120] When the carbon account server needs to calculate the carbon account resource value corresponding to a low-carbon task, it obtains the integral standard of the low-carbon task from the low-carbon task server, and calculates the carbon integral value of the low-carbon task. Moreover, if the low-carbon task includes low-carbon behavior data that will generate carbon emission reductions, it can obtain the emission reduction standard that matches the low-carbon behavior data from the matching server, and calculates the carbon emission reduction of the low-carbon task based on the emission reduction standard.

[0121] The matching server is used to match the corresponding emission reduction standard and integral standard for the low-carbon behavior data of the user through a low-carbon model.

[0122] By adopting the low-carbon management system disclosed in this disclosure, administrators can flexibly create and adjust low-carbon tasks, define carbon credit accounting standards for different tasks, and meet different needs and goals of the system. By setting clear carbon credit accounting standards, the accuracy and fairness of the credit calculation for each low-carbon task can be ensured, and the transparency of the system can be improved. Clear task requirements and credit reward mechanisms encourage users to actively participate in low-carbon activities, which helps achieve environmental protection goals.

[0123] Among them, the low-carbon task server may include multiple task modules.

[0124] The task module may be a punch-in module, which may obtain the login information of the user when logging into the carbon account page. The login information includes the corresponding information for each login, and records the timestamp of each login. The points allocated to the current login of the user are determined by the login information and the timestamp of the login. For example, the daily punch-in points rule may add the logic of obtaining value-added carbon points after continuous punch-ins. When the user logs into the carbon account page every day, the points obtained by the user through punch-ins may be additionally increased.

[0125] The task module may be a walking task module, which may obtain low-carbon walking activity data of the office communication system, and determine the carbon emission reduction and carbon credits that the user may obtain through walking according to the emission reduction standard and credit standard corresponding to walking. Figure 3 This is a schematic diagram of calculating the emission reduction amount of walking points shown in an embodiment of the present disclosure. Figure 3 As shown, the user clicks on the carbon account page: Go for a walk; determine whether the carbon account page has obtained step authorization, and if authorized, directly obtain the steps through the user terminal; if not authorized, obtain authorization first, and then obtain the steps through the user terminal; calculate the corresponding carbon credit value and the corresponding carbon emission reduction through the obtained step information; in the process of calculating the carbon credit value, determine in real time whether the upper limit of the carbon credit value is reached; when the upper limit of the carbon credit value is reached, stop calculating the credits, and prompt on the user terminal: you can participate in the activity and accumulate carbon emission reduction, but you cannot accumulate carbon credit values; after calculating the corresponding carbon credit value and the corresponding carbon emission reduction, obtain the carbon credit value and the carbon emission reduction.

[0126] The task module can be an online meeting module, which can obtain online meeting data on the office communication system; calculate the corresponding carbon emission reduction and carbon credit values ​​based on the set emission reduction standards and credit standards; wherein, automatic screening conditions can be set for the number of people in the online meeting and the meeting time; trigger the calculation of the carbon emission reduction and carbon credit values ​​of the online meeting when the set conditions are met; the system matches the corresponding emission reduction standards and credit standards, and calculates the carbon emission reduction and carbon credit values ​​obtained by users participating in the online meeting. Figure 4 This is a schematic diagram of calculating the emission reduction amount of online conference points shown in the embodiment of the present disclosure. Figure 4 As shown, the user clicks on the carbon account page: take action; obtain the online meeting duration; calculate the corresponding carbon credit value and the corresponding carbon emission reduction respectively; in the process of calculating the carbon credit value, determine in real time whether the upper limit of the carbon credit value has been reached; when the upper limit of the carbon credit value has been reached, stop calculating the credits, and prompt on the user terminal: you can participate in the activity and accumulate carbon emission reduction, but you cannot accumulate carbon credit values; after calculating the corresponding carbon credit value and the corresponding carbon emission reduction, obtain the carbon credit value and the carbon emission reduction.

[0127] The task module can be a knowledge question and answer module, which can enhance energy-saving and low-carbon awareness, improve personal low-carbon capabilities, develop a low-carbon knowledge question and answer module, and calculate carbon points for correct answer information based on the set carbon point calculation rules. A limit is set for the calculation of carbon points, but there is no limit on the number of answers. Figure 5 This is a schematic diagram of calculating the emission reduction amount of knowledge question and answer points shown in an embodiment of the present disclosure. Figure 5 As shown, the user enters the question answering module on the carbon account page; answers questions; the questions include single choice, multiple choice and judgment; after completing the questions, the carbon credit value is calculated; in the process of calculating the carbon credit value, it is determined in real time whether the upper limit of the carbon credit value is reached; when the upper limit of the carbon credit value is reached, the calculation of the credits is stopped, and a prompt is given on the user terminal: you can continue to answer questions, but the carbon credit value has reached the upper limit and the carbon credit value cannot continue to be accumulated; after calculating the corresponding carbon credit value, the carbon credit value is obtained.

[0128] Among them, in an optional embodiment, the low-carbon management system also includes: a ranking server and an information management server; the information management server is used to: store the carbon account resource value of each user determined by the carbon account server; the ranking server is used to: generate one or more ranking lists, the ranking lists rank the carbon account resource values ​​of individuals or groups according to multiple different statistical periods; the ranking lists correspond to one or more ranking strategies; the sorting strategies include sorting according to carbon emission reduction and sorting according to carbon integral value to obtain ranking information; sending the ranking information to the user terminal; each of the multiple user terminals is also used to: receive the ranking information, and display the ranking information on the user's carbon account page.

[0129] The information management server can store the carbon account resource value of each user determined by the carbon account server. When the system needs to obtain the carbon account resource value, the carbon account resource value corresponding to the user can be obtained from the information management server. In addition, with the user's low-carbon behavior data and completed low-carbon tasks, the carbon account resource value of the corresponding user in the information management server can be continuously updated.

[0130] The ranking server is used to generate a corresponding ranking list according to the carbon account resource value of each user, and send the ranking information to the user terminal for display. The ranking server generates one or more ranking lists, and each ranking list corresponds to a different ranking subject. For example, ranking list A ranks the carbon account resource value of an individual, and ranking list B ranks the carbon account resource value of a group. When ranking the carbon account resource value, the carbon account resource value can be ranked according to different statistical periods, for example, setting a daily ranking, a weekly ranking, a monthly ranking, and a total ranking of carbon account resource values; the carbon account resource value also includes carbon credit value and carbon emission reduction, and ranking strategies are formulated for the carbon credit value and carbon emission reduction respectively, and the carbon credit value and carbon emission reduction are ranked by the ranking strategy. Specifically, ranking list A can rank the carbon credit value and carbon emission reduction of an individual respectively. When ranking the carbon credit value and carbon emission reduction, the carbon credit value and carbon emission reduction can also be ranked according to the daily ranking, the weekly ranking, the monthly ranking, and the total ranking.

[0131] After the ranking server generates the ranking list, it obtains the carbon account resource value of each user from the information management server, fills the user ID and the corresponding carbon emission reduction and carbon credit value into the ranking list according to the carbon account resource value, generates the ranking information; and sends the ranking information to the user terminal.

[0132] The user terminal receives the ranking information and renders the ranking information to the corresponding position of the carbon account page. The carbon account page can pre-set an area for displaying ranking information and preset the corresponding style. After obtaining the ranking information, it can be directly rendered on the page.

[0133] By adopting the low-carbon management system disclosed in the present invention, the ranking list can motivate users to actively participate in low-carbon activities, improve their carbon emission reduction efforts and carbon points accumulation, and thus achieve environmental protection goals by displaying the rankings of users and groups. The generation and display of the ranking list provides transparency in the operation of the system, allowing users to see their own and others' carbon emission reduction achievements, and increasing the transparency of carbon account management. The display of the ranking list can increase user participation and activity, and users will pay more attention to their own rankings and carbon account resource values, thereby enhancing the user stickiness of the system. The ranking list can be used as a feedback mechanism, allowing users to see the results of their efforts, while also understanding their performance in a larger scope.

[0134] Among them, in an optional embodiment, the low-carbon management system also includes: a carbon credit clearing server and an information management server; the information management server is used to: store the carbon account resource value of each user determined by the carbon account server; the carbon credit clearing server is used to: generate a clearing strategy, determine a carbon credit clearing interface according to the clearing strategy, and send the carbon credit clearing interface to the user terminal; each of the multiple user terminals is also used to: obtain the carbon account resource value of the user from the information management server, and clear the carbon account resource value through the designed clearing strategy.

[0135] The information management server can store the carbon account resource value of each user determined by the carbon account server. When the system needs to obtain the carbon account resource value, the carbon account resource value corresponding to the user can be obtained from the information management server. In addition, with the user's low-carbon behavior data and completed low-carbon tasks, the carbon account resource value of the corresponding user in the information management server can be continuously updated.

[0136] The carbon credit clearing server can generate a clearing strategy and create a corresponding clearing interface according to the clearing strategy. The clearing interface can be understood as a credit store; the credit store includes various commodities that can be exchanged for carbon credits, and the carbon credits for each commodity are different. After the carbon credit clearing server creates the clearing interface, it sends the clearing interface to the user terminal for display, so that the user terminal can use the clearing interface.

[0137] The user terminal can access the clearing interface, and when accessing the clearing interface, a carbon account resource value acquisition request is sent to the information management server, so that the user can know in real time whether the carbon credit value can be cleared. For example, if the carbon credit value required for some clearing options (commodities) in the clearing interface exceeds the user's remaining carbon credit value, the user cannot eliminate the carbon credit value by selecting the product. Only when the carbon credit value required for the clearing option is less than or equal to the user's remaining carbon credit value, the user can eliminate the carbon credit value by selecting the product, that is, redeem the product corresponding to the option.

[0138] When the user clears part or all of the carbon credits through the clearing interface, the current carbon credits corresponding to the user in the information management server are updated, and the information management server does not clear the carbon credits accumulated by the user.

[0139] By adopting the low-carbon management system disclosed in the present invention, the system can accurately control the validity period and removal rules of carbon credits by defining the removal strategy. The user terminal enables users to participate in carbon credit management by displaying the removal interface, enhancing the user's initiative and sense of control over the system. The collaboration between the information management server and the carbon credit removal server ensures the consistency of data and the coherence of processing, and improves the overall efficiency of the system. By formulating a unified removal strategy, the system can ensure that the carbon credits of all users are handled fairly and impartially, avoiding unnecessary disputes.

[0140] The present disclosure also provides a low-carbon management method, which is applied to the low-carbon management system of the embodiment of the present disclosure. Figure 7 is a flow chart of a low-carbon management method shown in an embodiment of the present disclosure. Figure 7 As shown, the low-carbon management method may include the following steps:

[0141] Step S91: issuing low-carbon tasks to multiple user terminals respectively, and determining the low-carbon tasks to be completed by the users of the multiple user terminals respectively;

[0142] Step S92: collecting the low-carbon behavior data of the user;

[0143] Step S91: determining the emission reduction standard and the integral standard suitable for the low-carbon behavior of each user according to the low-carbon behavior data and the completed low-carbon tasks of each user;

[0144] Step S93: determining the carbon emission reduction amount and carbon integral value of each user according to the determined emission reduction standard and integral standard and the low-carbon behavior data of each user and the completed low-carbon tasks;

[0145] Step S94: determining the carbon account resource value of the user according to the carbon emission reduction and carbon credit value of the user;

[0146] Step S95: Displaying the carbon account resource value on the user's carbon account page.

[0147] The various embodiments in this specification are described in a progressive manner, and each embodiment focuses on the differences from other embodiments. The same or similar parts between the various embodiments can be referenced to each other.

[0148] Those skilled in the art will appreciate that the embodiments of the present application can be provided as methods, devices, or computer program products. Therefore, the present application can adopt the form of a complete hardware embodiment, a complete software embodiment, or an embodiment in combination with software and hardware. Moreover, the present application can adopt the form of a computer program product implemented on one or more computer-usable storage media (including but not limited to disk storage, CD-ROM, optical storage, etc.) containing computer-usable program code.

[0149] The embodiments of the present application are described with reference to the flowcharts and / or block diagrams of the methods, terminal devices (systems), and computer program products according to the embodiments of the present application. It should be understood that each process and / or box in the flowchart and / or block diagram, as well as the combination of the processes and / or boxes in the flowchart and / or block diagram, can be implemented by computer program instructions. These computer program instructions can be provided to a processor of a general-purpose computer, a special-purpose computer, an embedded processor, or other programmable data processing terminal device to generate a machine, so that the instructions executed by the processor of the computer or other programmable data processing terminal device generate instructions for implementing the processes in the flowchart and / or block diagram. Figure 1 A process or multiple processes and / or boxes Figure 1 A device that provides the functions specified in a block or multiple blocks.

[0150] These computer program instructions can also be loaded onto a computer or other programmable data processing terminal device so that a series of operating steps are executed on the computer or other programmable terminal device to produce a computer-implemented process, thereby providing instructions for executing on the computer or other programmable terminal device to implement the process. Figure 1 A process or multiple processes and / or boxes Figure 1 A step that specifies a function in one or more boxes.

[0151] Although the preferred embodiments of the present application have been described, those skilled in the art may make additional changes and modifications to these embodiments once they have learned the basic creative concept. Therefore, the appended claims are intended to be interpreted as including the preferred embodiments and all changes and modifications that fall within the scope of the embodiments of the present application.

[0152] Finally, it should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or terminal device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or terminal device. In the absence of further restrictions, the elements defined by the sentence "comprise a ..." do not exclude the existence of other identical elements in the process, method, article or terminal device including the elements.

[0153] The above is a detailed introduction to a low-carbon management system and method provided by the present application. Specific examples are used in this article to illustrate the principles and implementation methods of the present application. The description of the above embodiments is only used to help understand the method of the present application and its core idea; at the same time, for general technical personnel in this field, according to the idea of ​​the present application, there will be changes in the specific implementation method and application scope. In summary, the content of this specification should not be understood as a limitation on the present application.

Claims

1. A low-carbon management system, characterized in that: include: Multiple user terminals, low-carbon task servers, and carbon account servers; Each of the plurality of user terminals is used to: collect low-carbon behavior data of a user of the user terminal and send the data to a carbon account server, and display a carbon account page of the user, wherein the carbon account page of the user at least includes a carbon account resource value of the user; The low-carbon task server is used to: issue low-carbon tasks to the multiple user terminals respectively, and determine the low-carbon tasks to be completed by the users of the multiple user terminals respectively; The carbon account server is used to: determine the emission reduction standard and integral standard suitable for each user's low-carbon behavior based on each user's low-carbon behavior data and completed low-carbon tasks, determine each user's carbon emission reduction and carbon integral value based on the determined emission reduction standard and integral standard and each user's low-carbon behavior data and completed low-carbon tasks, and determine the user's carbon account resource value based on the user's carbon emission reduction and carbon integral value and send it to the user terminal.

2. The low-carbon management system according to claim 1, characterized in that: The low-carbon management system also includes: an update module and an information management server; The information management server is used to: store the carbon account resource value of each user determined by the carbon account server; The carbon account server is further used to: after determining the carbon account resource value of the user, store the carbon account resource value of the user in the information management server; The updating module is used to: monitor the carbon account resource value of each user in the information management server, and send a data updating instruction to the user terminal corresponding to the user when the carbon account resource value of each user changes; Each of the plurality of user terminals is further configured to: in response to the data update instruction, obtain the carbon account resource value corresponding to the user from the information management server; and update the carbon account page according to the carbon account resource value.

3. The low-carbon management system according to claim 1, characterized in that: The low-carbon management system further includes: a matching server; The matching server is used to: match the corresponding emission reduction standard and integral standard for the low-carbon behavior data of the user through a low-carbon model; The carbon account server is further used to: after acquiring the low-carbon behavior data of each user, access the matching server; and determine the emission reduction standard and the integral standard adapted to the low-carbon behavior data from the matching server.

4. The low-carbon management system according to claim 1, characterized in that: The low-carbon management system also includes: a behavior recording server; The behavior recording server is used to: store the low-carbon behavior data of each user; Each of the plurality of user terminals is further configured to: after collecting the low-carbon behavior data of the user of the user terminal, store the low-carbon behavior data of each user into the behavior recording server; The carbon account server is further used to obtain the low-carbon behavior data of each user from the behavior record server.

5. The low-carbon management system according to claim 1, characterized in that: The low-carbon management system also includes: an authority server; Each of the plurality of user terminals is further configured to: send a permission request to the permission server when the user logs into the carbon account page; and receive operation information of the user on the permission request interface, and send the operation information to the permission server; The permission server is used to: send a permission request interface to the user terminal in response to the permission request, and determine whether the user terminal can obtain low-carbon behavior data according to the user's operation information.

6. The low-carbon management system according to claim 1, characterized in that: The low-carbon management system also includes: a carbon credit control server and an information management server; The carbon credit control server is used to: control the upper limit of carbon credits for each user; The information management server is used to: store the carbon account resource value of each user determined by the carbon account server; The low-carbon task server is also used to: obtain the user's carbon credit upper limit from the carbon credit control server when determining the user's carbon credit value based on the user's low-carbon behavior data and completed low-carbon tasks, and obtain the user's carbon account resource value within a preset period from the information management server; when the carbon credit value in the carbon account resource value reaches the carbon credit upper limit, the low-carbon task server does not perform carbon credit value calculation.

7. The low-carbon management system according to claim 1, characterized in that: The low-carbon management system further includes: an administrator terminal; The administrator terminal is used to: initiate the low-carbon task to the low-carbon task server, and set the carbon credit value calculation standard of the low-carbon task; The low-carbon task server is further used to: receive the low-carbon task and the carbon credit value calculation standard of the low-carbon task sent by the administrator terminal; The carbon account server is also used to: receive the user's completion data on the low-carbon task, obtain the carbon credit value calculation standard of the low-carbon task from the low-carbon task server, and determine the carbon credit value corresponding to the low-carbon task.

8. The low-carbon management system according to claim 1, characterized in that: The low-carbon management system also includes: a ranking server and an information management server; The information management server is used to: store the carbon account resource value of each user determined by the carbon account server; The ranking server is used to: generate one or more ranking lists, wherein the ranking lists rank the carbon account resource values ​​of individuals or groups according to multiple different statistical periods; the ranking lists correspond to one or more ranking strategies; the ranking strategies include ranking according to carbon emission reduction and ranking according to carbon integral value, and obtaining ranking information; and sending the ranking information to the user terminal; Each of the multiple user terminals is further configured to: receive the ranking information, and display the ranking information on the carbon account page of the user.

9. The low-carbon management system according to claim 1, characterized in that: The low-carbon management system also includes: a carbon credit removal server and an information management server; The information management server is used to: store the carbon account resource value of each user determined by the carbon account server; The carbon credit clearing server is used to: generate a clearing strategy, determine a carbon credit clearing interface according to the clearing strategy, and send the carbon credit clearing interface to the user terminal; Each of the multiple user terminals is further used for: acquiring the carbon account resource value of the user from the information management server, and clearing the carbon account resource value through the designed clearing strategy.

10. A low-carbon management method, characterized in that: Applied to low carbon management systems, including: issuing low-carbon tasks to a plurality of user terminals respectively, and determining the low-carbon tasks to be completed by the users of the plurality of user terminals respectively; Collecting low-carbon behavior data of the user; According to each user's low-carbon behavior data and completed low-carbon tasks, determine the emission reduction standard and point standard suitable for each user's low-carbon behavior; Determine the carbon emission reduction and carbon credit value of each user based on the determined emission reduction standards and credit standards and each user's low-carbon behavior data and completed low-carbon tasks; Determining the carbon account resource value of the user according to the carbon emission reduction and carbon credit value of the user; The carbon account resource value is displayed on the user's carbon account page.

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